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Center for Integrated Multi-modal and Multi-scale Nucleome Research

综合多模式和多尺度核组研究中心

基本信息

批准号：
10269034
负责人：
Catherine Dulac
金额：
$ 130万
依托单位：
UNIVERSITY OF CALIFORNIA, SAN DIEGO
依托单位国家：
美国
项目类别：
财政年份：
2020
资助国家：
美国
起止时间：
2020-09-24 至 2025-06-30
项目状态：
未结题

来源：
https://reporter.nih.gov/project-details/10269034
关键词：
3-Dimensional Acute Address Affect Architecture Atlases Biological Biological Assay Brain Brain region CRISPR interference Cell Nucleus Cells Chromatin Chromatin Modeling Chromatin Structure Communities Complex Data Development Distal Elements Enhancers Foundations Free Will Gene Expression Gene Expression Regulation Genes Genetic Genetic Transcription Genome Genomics Goals Hippocampus (Brain)Human Human Genome Hypothalamic structure Image Imaging Device Individual Knowledge Macaca Mammalian Cell Mammals Maps Measurable Methods Modeling Monkeys Mus Nuclear Physics Physiological Play Polymers Regulator Genes Research Research Personnel Research Project Grants Resolution Role Scientist Slice Social Behavior Structural Models Structure Technology Testing Tissues Transcriptional Regulation Untranslated RNA Virtual and Augmented reality Visualization analytical tool base cell type cohesin embryonic stem cell epigenome epigenomics experimental study genomic data high resolution imaging improved informatics tool insight learning strategy mammalian genome multimodality nanoscale nerve stem cell nervous system disorder neural circuit new technology predictive modeling predictive test programs promoter statistical learning tool transcriptomics virtual reality web portal

项目摘要

The transcriptional regulatory sequences communicate with each other dynamically in the 3D nuclear space to direct cell type specific gene expression. Currently, a major barrier to understanding the transcriptional regulatory programs is the lack of tools, models and maps to explore the chromatin architecture in diverse cell types and physiological contexts. We will address this pressing need by deploying transformative technologies to study the chromatin architecture in mammalian cells at an unprecedented resolution and scale. Specifically, we will generate navigable, cell-type-specific reference maps of chromatin architecture in the mouse, macaque and human brains by integrating high resolution and high throughput imaging and orthogonal single-cell-based genomic methods. We will also dissect the role of chromatin architecture in gene regulation through a set of controlled perturbation experiments in the mouse ES cells (ESC) and ESC-derived neural progenitor cells (NPC). We will develop structural models of chromatin organization with advanced polymer physics and statistical learning methods, and validate their predictive power in embryonic stem cells and in ex vivo brain slices. Finally, we will make the reference maps, analytical tools, visualization methods and structural models available to the broader community. The proposed research project will dramatically transform our ability to analyze the 4D Nucleome of complex tissues, and produce the much-needed maps, tools and models for understanding the gene regulatory programs encoded in the linear genome sequences.

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